Detection method and apparatus. RU patent 2506631.
 Method for nonlinear three-dimensional many-round conversion of data dozen / 2503994Method involves presenting input 1 and output 2 data blocks, all intermediate results S of conversions and round keys (RoundKeys) 30, 31 32, 33 in form of a cubic array of bytes 4×4×4, defining a Layer 4 concept - quadratic array of bytes 4×4, presenting the first round key in form of four sub-keys (RoundSubKeys) 3i0, 3i1, 3i2, 3i3, i=1, 2, 3, each of which is in essence a quadratic array of bytes 4×4, adding 10 (XOR) the data block 1 with round key 30, three-dimensional conversion of the data block on layers 4x0, 4x1, 4X2, 4x3, 4y0, 4y1, 4y2, 4y3, 4z0, 4z1, 4z2, 4z3 respectively along x, y and z axes, including, in the procedure for two-dimensional conversion of layer 5 (T-Layer), four steps: replacing 6 bytes (SubBytes), mixing 7 rows (MixRows), mixing 8 columns (MixColumns), adding (XOR) 9 to a round sub-key (AddRoundSubKey). |
 Ternary logic-based random number generator / 2495479Device consists of identical combinational circuits operating in ternary logic, having two input and one output, combined into a ring circuit, wherein the output of each circuit is connected to the input of the same circuit and the input of the next circuit in a ring connection. A ternary signal with uniform distribution is obtained from any output of the circuit. |
 Generator of hyperchaotic oscillations / 2472210Generator of hyperchaotic oscillations comprises the first and second dipole elements with capacitance resistance, the first and second dipole elements with inductance resistance, a resistor and a non-liner impedance converter. |
 Method of generating regular sequences with elements composed of binary signals / 2469382Multibit devices based on the invention are characterised by stable, functionally unpredictable behaviour, exhaustively complete parallelism and easy implementation, low hardware and power costs and high efficiency. The device which realises the method has a clock pulse generator, a block of nonlinear controlled elements, consisting of configurable logic elements and D flip-flops. |
 Method of generating random sequences with elements composed of binary signals / 2467378Invention relates to digital technology and can be used in generating random numbers and transforming data, processing noise-like signals, identification, authentication and authorisation, in stochastic systems and devices and systems for displaying information, information-communication and sensor devices and systems. Multibit devices based the invention are characterised by stable, functionally unpredictable behaviour, exhaustively complete parallelism and easy implementation, low hardware and power costs and high efficiency. The device which realises the method has a clock pulse generator, a block of nonlinear controlled elements, consisting of configurable logic elements and D flip-flops. |
 Simulator of glare re-reflections of laser light by sea surface / 2451302In the device, the second input of the glare X-coordinate generator is connected to the output of a clock pulse generator, and its output is connected to the first input of a personal computer having a display. N frequency tunable high-frequency generators are connected respectively to the second inputs of mixers in a block of mixers through N-2 controlled electronic switches of heterodyning signals. The control inputs of the N frequency tunable high-frequency generators are connected to outputs of N control voltage generators, the inputs of which are connected to outputs of an N-channel random number generator, each having dimension n, which is synchronised by signals from the clock pulse generator, where n is the number of rows in the matrix of glare re-reflections of the equivalent zone of the sea surface. The output of the clock pulse generator is also connected to the second input of the computer and the input of the N-channel random number sensor, each having dimension m, where m is the number of columns of said matrix, the output of said sensor being connected to the glare Y-coordinate generator, the output of which is connected to the third input of the computer. The output of the clock pulse generator is connected to the random number sensor with dimension N-2, the output of which controls the number generator switched by the controlled electronic switches of the N-2 frequency tunable high-frequency generators, and N-2 outputs of that number generator are connected to N-2 controlled electronic switches through electronic drives. |
 Pseudorandom sequence generator / 2446444Device contains a clock pulse generator, n1 multipliers, an n1 input half-adder, a shift register with a clock input, a serial input, an n1 bit parallel input, an asynchronous setup input and an n1 bit output, a parallel feedback register for an n1 bit M-sequence generator, a nonlinear generator with a 2·n2 bit initial state input and an n2 bit output, a parallel (n1+n2)-bit register, (n1+n2) buffer elements, a parallel commutation register with a (n1+n2)-bit data input and a (n1+n2)-bit output, where n1 is the number of binary bits of numbers at the output of the shift register, n2 is the number of binary bits of numbers at the output of the nonlinear generator. |
 Forming scramble sequences in communications system / 2442278FIELD: communication systems; technologies of forming scramble and unscramble sequences. SUBSTANCE: in one of the aspects various scramble sequences are formed on the basis of different circular shifts of the basic scramble sequence which is formed via a linear feedback shift register (LFSR), which can be a maximum length sequence. The scrambling sequence for this channel may be formed (i) by determining the value of the sequence switch based on the channel type and at least one parameter value for the channel and (ii) by a circular shift of the basic scramble sequence based on the sequence switch value. In another aspect the reference signal, which is sent through the system's variable passband, is formed by two scramble sequences which can be different circular shifts of the basic scramble sequence. Scrambling/unscrambling for positive and negative frequencies for the reference signal is implemented through the first and the second scramble sequences respectively. EFFECT: more effective scrambling of all channels and signals. 29 cl, 10 dwg |
 Generating random numbers using continuous-time chaos / 2440602In one of the versions of the invention, the device has three comparators, a chaotic oscillator, D flip-flops, digital-to-analogue converters, a frequency divider, an XOR element, single-bit test and sequence test units. |
 Generator of pseudorandom binary sequences / 2427886Device includes shift register consisting of n in-series connected quaternary memory cells, where n - odd number; each of the above cells consists of two binary memory cells, initial setup unit, half adder, square wave generator, which forms the sequences of "zero" and "one" signals, feedback unit performing locic operation of multiplication and summing above the contents of memory cells for formation of feedback signal according to characteristic polynomial, bit synchronisation device, devices providing the storage of coefficients of characteristic polynomial and serving as multipliers when performing multiplying operations in feedback unit. |
| Random numbers generation method / 2246129 Method includes generating random numbers with use of displacement register with check connection, elementary digit of which is a q-based symbol (q=2l, l - binary symbol length) at length of q-based digits register, in check connection networks nonlinear two-parameter operations on q-based symbols F (ub, ud) are used, on basis of random replacement tables, for generating next random number values z1=F(ui, uj), z2=F(ut, um), zg=F(z1, z2) are calculated, where ui, uj, ut, um - values of filling of respective register digits, value of result in check connection networks zg is recorded to g digit of displacement register and is a next result of random numbers generation, after which displacement of register contents for one q-based digit is performed. |
 Random series generator / 2250489Device has random numbers source, N-digit selector-multiplexer, RAM, ranges control block, generations number control block, J-input OR element, AND elements block. Because series of given values of data set is broken in ranges and frequency of their appearance is set within certain limits, random series is generated with distribution law, presented in form of ranges. |
 Method and device for generation of multiple bits of pseudo-noise series for each clock pulse by means of parallel calculation of bits / 2267807Beginning values of states are loaded in registers of parallel pseudo-noise generator, which immediately generates following n bits of pseudo-noise series, where n - arbitrary number, depending on required productiveness level. Then, first sub-portion of pseudo-noise generator in accordance to invention receives current state of pseudo-noise generator and outputs state of n bits pseudo-noise generator in the future. |
 Generator for modeling flow of requests in mass service systems / 2271564Generator has set-point generator 1, generator 2 of exponential voltage, generator 3 of evenly distributed random numbers, digital-analog converter 4, elements OR 5,6, block 7 for comparison, device for pulse generation 8, forbidding element 9, trigger 10, multiplication block 11, input 12 and output 13 of device. Requests stream is formed of elementary stream by excluding one request with preservation of second request, i.e. at output 13 of generator through temporal ranges, distributed in accordance to Erlang law of second order, pulses are generated, modeling receipt of requests. |
 Device for modelling continuous random value on basis of bar chart / 2287177Device has random number sensor, clock impulse generator, stepped voltage generator, comparison block, counter, decoder, trigger, impulse generator, memory blocks, delay elements, AND elements, multiplexer, adder, block for setting source data, block of adders, block of subtracters, block of amplitude discriminators, code-amplitude transformer, blocks of elements AND, elements OR. |
 Method and device for forming of initial value of pseudorandom number generator / 2292074Method is based on entropy valuation calculation and writing of mixed packed data into corresponding cells in different memory block areas. On the basis of written data new initial value is formed. Device for initial value of pseudorandom value generator forming contains data source analysis and current entropy valuation calculation means, data package means, data mix means, data accumulation and entropy valuation forming means, new initial value forming means. |
 Device for generating pseudo-random series of binary numbers with usage of elliptic curves / 2294559Device contains two memory blocks, current time moment timer, two concatenation blocks, two hash-function computation blocks, operation block, computing block. |
 Generator of pseudo-random series / 2313125Device contains selector-multiplexer (1), random-access memory device (2), supply of random numbers (3), K P-bit registers (4), where K≥2 and P≥2, K comparison blocks (5), priority encoder (6) and N, where N≥1, inverters (7). |
 Generator of pseudorandom sequences of impulses in uniform environment with programmaticably changeable structure / 2331915Invention refers to the computer science, cryptographic encoding and discrete information transfer and can be used for creation of pseudorandom sequences generators. The device consists of the timing pulse generator, control and adjustment unit and series of uniform cells with corresponding relations. |
 Random number generator / 2331916Invention refers to methods and systems of data protection from unauthorised actions, changing of the content during data transfer and storage and can be used for quick generating of random numbers required for ciphering, creation of digital signature, authentication protocols etc. It is assumed to use the random number generator containing source of low intensity elementary particles, receiver containing particle detector and an events storage unit that allows obtaining instant analogue value of quantum events intensity proportional to the number of registered particles; analog-to-digital coder and a scheme equalising statistical properties of the obtained data stream and also generator setting measuring frequency and connected with the analog-to-digital coder. Thereby the simultaneous quantum process is used as a source of low-intensity elementary particles. |
FIELD: physics, computer engineering.
SUBSTANCE: disclosed method and apparatus relate to electronic detectors which detect changes in ambient electromagnetic background. The main field of application is determining the emotional state of consciousness, entertainment and electronic games with interactive control, equipment for solutions in the field of decorative and designer works, for interior installations and lighting devices. The detection method is characterised by that an initial electric signal is emitted from a noise source which, through amplification and filtration, is converted to a random pulse sequence consisting of high- and low-level voltage pulses, which is converted to a sequence of numerical values; the numerical values from said sequence are sampled over a certain time interval and the detected signal is obtained by analysing the numerical values in the sample, wherein the sequence of numerical values is obtained by calculating over a given time interval the difference between duration of the high- and low-level voltage pulses of the random pulse sequence, and the detected signal is obtained by calculating the variance of numerical values in the sample. The apparatus comprises a noise signal source, three amplifiers, a microprocessor unit which calculates variance and analyses it, two frequency-dependent circuits and a LED indicator.
EFFECT: high sensitivity and reliability of detection.
6 cl, 1 dwg
The proposed method and apparatus relate to the field of electronic detectors for registration of change of the electromagnetic background environment. The main scope of application - definition of emotional States of consciousness, entertainment and electronic games with interactive controls, technical means for solutions in the field of decorative and design, interior design, lighting devices and lighting, as well as electronic devices for the detection of situations beyond the existing background.
Human impact on random processes is acknowledged by many researchers. In particular, the report Princeton laboratory for applied research of anomalous phenomena (PEAR), which is actively working in this direction since 1979, has convincingly shown that the effect of intentional exposure of the operator to a random process statistically trustworthy ( about 10-8 for 125 thousand tests), although insignificant in size ( about 0,2%). In the same report States that even the mere presence of the operator in the premises, where the operator does not attempt to influence the result, leads to a shift of the testimony, which is within the 95% confidence level.
In 2005 the company Psyleron, the recipient of the PEAR, the device is created REG-1 - the generator of random events, which produces random events, such coins, but instead heads or tails gives numerical values 1 or 0. Unlike random numbers, built-in PC software, REG-1 produces truly random events that fundamentally impossible to predict or completely described by a finite set of rules. The device showed a small but steady shift of average values at 0.2% in the normal distribution. The volume of the collected statistics allows to speak about the error in the determination of the effect. When this case was used in the simplest scheme of experiment, at which analyzed the only binary probability of presence or absence of a signal at the set time interval. In result it was found the existence of an effect directional changes in average in the distribution of random events. Conclusion: today we can speak about a certain efficiency of electronic detectors, working on the most primitive scheme, at the level of not less than 0.2%.
If you start introduction with applications, are in areas such as entertainment, toys or management), decorative and design of the project, or spheres, limited voluntary nature of the received signal, the only building on the results achieved, we can already count on a significant advantage.
For example, if you create a single element of the interior glow color display, led lighting/lighting or other item that changes its color, with a certain impact on it to be deliberate, or marker on a display screen electronic game will move in in advance or an intention side, or moving the toy will in turn given by the operator side and stop at a given moment - this gives you new that did not take place earlier properties and characteristics usual in the world of things.
Or, for example, if the device will warn about the necessity to check blood pressure, and a real threat to the critical state will have only 1 out of 100, then it will give more than a tangible result, because it's a threat to life. The acceptable risk level accepted in the different calculations, in civilized countries, begins with a size of 10 -6 -10 -5 , so the value of 10 -2 may already be more than impressive for instruments of this kind.
In [2, US Patent US 5830064, «the structure and way to distinguish between events, the total probability of exceeding expectations, and management of output on the basis of this distinction»] describes the principle of operation and the device is a portable electronic device capable of accurate register the intention of the operator expressed in the mental form, intended for use in computer games, moving toys and other managed objects, with a view to making them an extra control implemented without direct muscular contact the operator. This additional non-contact control significantly increases the user interest in electronic games and toys, and in some cases can replace a contact management on non-contact. Including, according to [2], this method can be used for detection of emotional States.
Way, together with the implementing its device, described in [2], based on the generation of a pulse sequence of random values, obtaining on its basis the numerical sequence and then a statistical analysis of the latter.
To obtain a sequence of random values is initially generated two sequences:
- random binary sequence of values (1)based on the source of the noise source and heartbeat, specify the duration of the values in time;
- pseudo-random binary sequence mask (2) (when its generation are also used heartbeats).
The first sequence of forth is inverted in accordance with the second (operation, the equivalent of the exclusive OR))], and the result is a binary random sequence values (3), which is subjected to statistical analysis.
In addition, to perform the statistical analysis of the obtained binary sequence (3) is compiled byte (integer) the sequence (4).
In the statistical analysis calculates the probability characteristics of a random sequence of values of the mathematical expectation and variance, which is then compared with a threshold showing a loss of a chance for the preset limits. As a result of exceeding the threshold is detected event that reflects the state or the intention of the operator.
When compiling a multi-byte sequence, which generally occurs randomly, according to [2], it may cause some permanent displacement capable of adversely affect the result of the statistical analysis. Therefore, to reduce the influence of this factor and «include» additional randomness, you must perform the above-inverting.
Method and device described in [2], chosen as the prototype of the present invention.
Prototype implies the use of the generator of random signal with uniform characteristics of the distribution of power. Its authors insist on the factor of the «randomness» of the signal, meaning that it is evenly and gives the random process, the statistical characteristics of which are susceptible to external influences.
Some of the works shown that this type of signal is weaker sensitivity to external influences in comparison with the signal with the distribution of the coordinates of «power-frequency 1/f, i.e. the density increases in proportion to the reduction of frequency of [3, A.G. . «The low frequency noise is a universal detector weak interactions»].
The use of this type of signal to a much greater degree answer the posed task, rather than a signal used in the prototype.
In addition, a prototype includes a number of necessary actions that require a large number of electronic components for implementation. These include the clock generator pulses required to specify a specific duration of generated pulses, as well as additional sequence generator-masks superimposed on the sequence generated source, to exclude the effects of the displacement of the first order (which may be taken into account in the mathematical analysis by digital filtering). Together, these actions lead to the complication of the electronic circuit of a detector and a substantial increase in power consumption.
Inter alia, one of the forming factors in the task is the withdrawal of the visualization process detection. I.e. it is necessary to indicate the process, for example, to control the colors glow of a luminous element or positional position marker. Analysis of prototype shows that the solution of this problem is beyond its scope.
Given these shortcomings associated with the prototype, the essence of the task and the premise of the present invention, in comparison with the prototype is reduced to the following aspects:
a) increase the sensitivity and, as a consequence - increase of reliability of detection emotional States;
b) increase the efficiency, reduction of mass and size parameters when you create a portable and non-volatile devices detectors;
a) raising awareness at the visualization of process detection emotional conditions in real time.
Thus, the technical result of the invention will be to identify emotional States and their pictorial presentation to the user, with minimum delay, including:
- for the timely detection of situations of harm to others;
- detection of situations of favorable and desirable for the environment.
The subject of the invention is a method of detection and device for its implementation.
The proposed method of detecting consists of a sequence of operations, such prototype - generating electric signal, which is a sequence of values, converting the signal into a sequence of samples perceived decisive device, with subsequent mathematical treatment (analysis).
The problem is solved using the method of receiving signal emotional state based on the identification of States beyond the expected probability, based on generating random pulse signal from the source of the noise signal, convert it into a sequence of numeric values, signal generation emotional state by means of statistical analysis of a sequence of numeric values, distinguished by the fact that random pulse signal is produced by strengthening of the signal received from the source of noise, with simultaneous suppression of high-frequency components of the latter, a sequence of numeric values are obtained by the discrete samples from a random pulse signal, calculate the current value of the variance in the time window t a sequence of numeric values, and an emotional state receive as an offset variance by a certain amount.
The dependence of the distribution of the variance of the detector signal from the prevailing emotional background, indicating the areas of analysis to determine the displacement of the variance, is given in Annex 2 the histograms of the distribution obtained under different (opposite) emotional environments. Thus, to receive the signal of an emotional state, it is necessary to analyze the amount of displacement of the variance in the area («the area of slow decline» or «region»lift), in accordance with the histograms.
As a signal generator is used pulse generator that creates a sequence of pulses with variable duty, not having clearly defined duration at a particular time interval.
Generation of a signal is carried out in the following sequence, as shown in Fig. 1: from the source of the noise signal 1 (Zener diode, resistor generates an electrical signal, the signal is amplified, simultaneously exposed to low-pass filtering with specified frequency parameters, then re increases, turning into a sequence of pulses of high and low voltage level.
Sample random pulse signal is suggested in several different ways (options), which lead to equivalent results:
Variant of the method I: Sampling exercise by analogue-to-digital conversion, at which random pulse signal is converted into a digital sequence of samples X i , which is entered into the solver, for example, the microprocessor, and then the analysis of the received sequence by calculating the sample mean values of i (given a large interval of time T), the current expected M(X i ) (for a specified short time period t) and the current variance S 2 (X i ) (for a specified short period of time t).
Variant of the method II: Sampling is performed by measuring durations of high and low voltage levels random pulse signal, then the measured values are converted into a digital sequence of samples X i converted the readings are entered in a decisive device, after which the calculations of values of C i , M(X i ), as well as the variance S 2 (X i ) as described in section 1.
Variant of the method III: Sampling is performed by measuring the period or accidental frequency of the pulse signal on the given time interval.
Here it should be noted that all mentioned sampling differ from the prototype, which initially get the pulse sequence from which then receive a byte sequence of numbers with a given duration, then enter these numbers in bytes solver and calculate the mean and variance.
In that sense, for the implementation of the proposed method involves far fewer electronic components than in the prototype, and may apply widespread different types of microprocessors.
It should also be noted that for realization of a variant of method 1 sampling, you must perform the analog-to-digital conversion requires the appropriate Converter. This alternative method is most convenient for realization in fixed installations, where as a critical device, you can apply the available computer or laptop with an available analog-to-digital Converter (computer's sound card) for sampling.
The options method II and III are most suitable for the implementation of the method in the mobile miniature, without using any landline decisive device (PC or laptop). As a critical device is suitable simplest microprocessor, with input timer/counter. This solution sampling by means of the timer/counter makes implementation extremely cheap and compact, with minimum power consumption.
As another variant of implementation, visualization detection emotional States can also be made in the form of a moving marker (spots or marks on the screen of the monitor (display), the management of which is made on the basis of calculated statistical values.
This method is implemented in the device shown in Fig. 1, which is the subject of the invention, contains the source of the noise signal 1, having the power input and output, the first 2, 3 second and third 4 amplifiers, each of which has the power input, the first and the second inputs and output, the microprocessor block 5, having signal input, input power, acting in accordance with the designed software, carrying out the calculation of dispersion analysis, individual power source 6 with outlet other than the fact that the microprocessor block 5 additionally contains measuring input for the analysis of the supply voltage from the power source, the microprocessor block 5 additionally contains the first, second, third outputs for control led indicator 7, will also be hosting the first 8 and 9 second frequency-dependent feedback circuit, with the specified cutoff frequencies, each of which has input and output, the led indicator 7, with the first, second and third inputs, also different in that the first entrance of the first amplifier 2 is connected to the output of the source of the noise signal 1, the first entrance of the second amplifier 3 is connected to the output of the source of the noise signal 1, input the first frequency-dependent feedback circuit 8 is connected with the appearance of the first amplifier 2, and the first frequency-dependent feedback circuit 8 is connected with a second entrance of the first amplifier 2, entrance a second frequency-dependent feedback 9 is connected with the release of the second amplifier 3, and the output of the second frequency-dependent feedback 9 connected to the second input of the second amplifier 3, the first entrance of the third amplifier 4 is connected to the output of the first amplifier 2, the second input of the third amplifier 4 is connected to the output of the second amplifier 3, first, second and third inputs led 7 are connected respectively to the first, second and third outputs microprocessor unit 5, and the output of the source of Autonomous power supply 6 is connected to the measuring input microprocessor unit 5.
The described device can have a number of implementations. One of them is a portable device-toy. Functional diagram can be taken from Fig. 1.
The device consists of two interconnected heterogeneous parts. One part of the devices - analog circuit on operational amplifiers 2, 3, with chains feedback 8, 9, allowing to get a random pulse signal, with defined characteristics as described above, at the operational amplifier 4. The second microprocessor unit 5, which functions using a special software, which provides analysis of random pulse signal in accordance with the above mentioned means of obtaining a signal of an emotional state. Random pulse signal from the analog circuit, the output of the operational amplifier 4, served on a discrete entrance microprocessor unit 5, which fetches a given signal generates a sequence of numeric values calculates the current dispersion in the sequence and performs the analysis of its motion, after which generates a control signal 3-component led indicator 7, in accordance with the formula{1}, {2}, {3}, listed in Annex 1. For example, to get a busy signal emotional state, in accordance with bar, contained in Annex 2, Fig. 2A, Fig. 2B, is enough to determine the average, over time, the amount of displacement of the variance in the value pane, referred to as «the region of slow decline». To get a signal to the concentration of the consciousness (Fig. 3A, 3b) must, on the contrary, to the size of dispersion shifted in the opposite area is specified as «an area of recovery». The magnitude of the offset in the first case will be positive - i.e. towards large values of the average, in the second - negative - i.e. towards lower values. The duration of displacement in a particular area will talk about the power of the intensity of emotional influence.
The specified device can be implemented on a widespread and are commercially available budget integrated circuits of domestic and foreign production: operational amplifiers type AD8609 production of Analog Devices or similar, modern high-performance microprocessors MSP430, ARM9 Cortex and other Source of the noise signal 1 in this implementation represents a voltage divider with one arm on the semiconductor element, through which a small current flows the order of several tens of microamps voltage is applied to two identical operational amplifier 2, 3 with frequency-dependent feedback 8, 9, respectively. The received signals are subtracted from each other in the third operational amplifier 4, which output a pulse signal variable frequency mean frequency of which is determined by the cutoff frequencies of a feedback circuit of the first and second operational amplifiers. The resulting pulse signal arrives at the input of the microprocessor, where it is converted into a numeric sequence that is described above statistical processing with the receipt of the mathematical expectation and dispersion, which form the control signals LEDs reflect the detection currently emotional state as described above, representing light multicomponent signals with -width modulation (PWM). For some practical applications, for instance, achieve a state of concentration, it is advisable to use sounder 10 for sound indication detector signal. In this case signal emotional state is converted into audible tone, with high sound tones will correspond to positive displacement of the dispersion, and lower tones - negative offset.
Electronic diagram obtained with the use of these circuits, including microprocessor, consumes within 1 mA, battery 3V. When using common miniature lithium batteries capacity of 200...500 mA (type CR2032, CR2325) service life may be about 200...300 hours, that is, around 10...15 days of continuous operation.
Thus, the implementation of this method in the proposed device is a mobile technical means for the operational control of the emotional experience.
Sources of information
1. Report Princeton laboratory of applied research of anomalous phenomena of Consciousness and Anomalous Physical phenomena (1995). PEAR Technical Note 95004, May 1995.
2. Apparatus and method for distinguishing events which collectively exceed chance expectations and thereby controlling an output. Unated States Patent №5830064 of Nov.3, 1998.
3. A.G. . Audible noise - universal detector of weak influences. Parapsychology and Psychophysics. - 1992. - №5. - P.59-65.
1. A method of obtaining a signal emotional state based on the identification of States beyond the expected probability, based on generating random pulse signal from the source of the noise signal, convert it into a sequence of numeric values signal generation emotional state by means of statistical analysis of a sequence of numeric values, wherein the random pulse signal is produced by strengthening of the signal received from the source of noise, with simultaneous suppression of high-frequency components of the latter, a sequence of numeric values are obtained by the discrete samples from a random pulse signal, calculate the current value of the variance in the time window t a sequence of numeric values, and an emotional state receive as an offset of dispersion on a the value.
2. The method according to claim 1, characterized in that the discrete random sample from the pulse signal is realized by means of analog-to-digital conversion
3. The method according to claim 1, characterized in that the discrete random sample from the pulse signal is performed by calculating the instantaneous frequency.
4. The method according to claim 1, characterized in that the discrete random sample from the pulse signal is performed by measuring the period of the pulse.